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Understanding and Enhancing Silicon Nanoparticle Distribution during Electrode Processing

Silicon-dominant anodes are of great interest because of their potential to boost the cell-level energy of state-of-the-art Li-ion batteries. While silicon materials have been extensively studied, understanding interactions at the electrode level has recieved little attention, especially the coating...

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Published in:Journal of the Electrochemical Society 2024-05, Vol.171 (5), p.50542
Main Authors: Wu, Bingbin, Quinn, Joseph, Li, Jingnan, Li, Qiuyan, Liu, Dianying, Martin, Witness, Baar, Kevin, Zhong, Lirong, Wang, Chongming, Xiao, Jie
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container_end_page
container_issue 5
container_start_page 50542
container_title Journal of the Electrochemical Society
container_volume 171
creator Wu, Bingbin
Quinn, Joseph
Li, Jingnan
Li, Qiuyan
Liu, Dianying
Martin, Witness
Baar, Kevin
Zhong, Lirong
Wang, Chongming
Xiao, Jie
description Silicon-dominant anodes are of great interest because of their potential to boost the cell-level energy of state-of-the-art Li-ion batteries. While silicon materials have been extensively studied, understanding interactions at the electrode level has recieved little attention, especially the coating process of Si particles, which plays an equally important role in unlocking the full potential of silicon anodes. Herein, the electrode processing of a Si-dominated anode (52.8 wt%, 3.5–4.5 mAh cm −2 ) is being investigated to understand the relationship of processing on the morphology and properties of Si anodes at the electrode level. It has been found that almost-undetectable Si agglomerates easily form during electrode processing, which grow into largeprotrusions after lithiation and trigger potential internal shorting and self-discharge problems. A facile slurry filtration step is proposed to homogenize the particle distribution within Si-dominant electrodes which improves the electrochemical performance and storage stability of Si-based Li ion batteries.
doi_str_mv 10.1149/1945-7111/ad4919
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subjects batteries - lithium
energy storage
silicon
title Understanding and Enhancing Silicon Nanoparticle Distribution during Electrode Processing
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